This course is designed to provide fundamental principles of EMI / EMC with numerous design practices of high-performance circuit, module, and system to meet EMI / EMC compliant specifications.
(Prerequisite: EE204, EE304)
This course covers many facets of the topic of high-resolution radar, including basic principles, radar systems, Doppler radar, polarimetric radar, and spaceborne radar, and Synthetic Aperture Radar.
This is an advanced course on coding theory, which is a sequel to EE621. We continue with more in-depth treatment of LDPC and turbo codes followed by some recent developments in coding theory including rateless codes and dirty paper coding. Topics covered are: codes on graphs, message-passing, irregular LDPC code ensembles, density evolution, concentration theorem, stability condition, thresholds, capacity-achieving sequences for BEC, EXIT chart, EXIT function and area theorem, multi-edge type LDPC codes, LDGM, rateless, LT, and Raptor codes, efficient encoding for LDPC codes, Code design in Euclidean space, coding and shaping gains, lattice strategies for coding, dirty paper coding.
This course covers advanced topics in information theory, especially, multiuser information theory and network information theory.
This course is designed to lecture nonlinear optical phenomena in optical fiber and their applications including effects on optical communications. The course will start with general concepts of nonlinear optics and wave propagation in an optical fiber.
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This course provides a broad introduction to optical networks. We review the fundamentals of optical communication technologies, the optical circuit and packet network technologies, and all optical packet switching networking. Topics include optical fiber system, optical networking technologies, PON, WDM networking, IP over WDM, OPS/OBS, and optical layer management technologies. (Prerequisite: EE441, EE520, EE527)
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This course will cover advanced device physics of MOSFETs and their ultimate scaling. Recent trends such as a new device structure and a new material will be introduced, and various types of memory devices as an example of detailed applications are also covered. Through a depth of study in quantum effects, reliability issues, and modeling, this course can provide core knowledge of next device technologies and a chance to explore new applications. (Prerequisite: EE362, EE561)
In this course, basic principles, applications, and recent issues in front-edge nanoelectronic devices such as RTD, FinFETs, nanowire MOSFETs, Carbon nanotubes, Graphene nano-ribbons, quantum dot, and spin-based devices will be covered. This course consists of theoretical consideration of the subjects and practical on-line simulation sessions using existing tools. (Prerequisite: EE565)
In this course, the basic concept and principle of plasma electronics will be studied. In particular, the basic phenomena of electronics in gas phase and the fundamental theory of plasmonics will be studied. The application of plasma electronics for plasma process and high-efficiency electronic displays and energy devices will be also discussed.
In this course, a new technology trend in electronics, flexible electronics, will be discussed and studied. The fundamental concept of flexible devices and materials including fabrication process will be introduced, and the applications of flexible electronics to TFTs, Display, Solar cell, and Sensors are also discussed.
